Effects of Ultrasonic Frequencies on Grinding Force of Nano-Composite Ceramics Based on Nonlocal Theory

Bo Zhao; Ping Yan Bian; Yu Li

doi:10.4028/www.scientific.net/AMR.565.148

Paper Titles

The Characteristics of High-Speed Cylindrical Grinding of Silicon Carbide and its Influence on the Surface Layer
p.123

An Experimental Investigation of Ultrasonic Assisted Grinding in DOE Approach
p.129

Design of Ultrasonic Horn for Grinding Using Finite Element Method
p.135

Experimental Investigation on Ultrasonic Assisted Grinding of High Volume Fraction SiC Particles Reinforced Al Matrix Composites
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Effects of Ultrasonic Frequencies on Grinding Force of Nano-Composite Ceramics Based on Nonlocal Theory
p.148

Experimental Research on Surface Roughness of Ultrasonic Assisted Grinding in Face Grinding Process
p.154

Experimental Research on Dry Grinding of Titanium Alloy with Graphite Coated Brazed cBN Mounted Wheel
p.160

Research on Functional Surface Grinding of Medical Titanium Plate
p.165

Thermal Characteristics Analysis of Liquid Hybrid Bearing on Ultra-High Speed Grinding
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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 565Effects of Ultrasonic Frequencies on Grinding...

Effects of Ultrasonic Frequencies on Grinding Force of Nano-Composite Ceramics Based on Nonlocal Theory

Abstract:

Based on nonlocal theory, The effects of ultrasonic frequencies on the grinding force and nonlocal decay rate are obtained through the experimental study of material properties under ultrasonic vibration grinding test. The results of experiments showed that grinding force is attenuated in the ultrasonic vibration frequency ranges and this attenuation phenomenon becomes more and more evident by the increase of the ultrasonic frequencies. Through analysis of the grinding surface morphology and phase structure, it showed that ultrasonic vibration greatly reduces the average grinding force, and the surface quality are improved, and that it is much easier to achieve ductile-mode machining under ultrasonic vibration. The results of experiments are in accordance with the analysis of nonlocal theory.

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Periodical:

Advanced Materials Research (Volume 565)

Pages:

148-153

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.565.148

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Online since:

September 2012

Authors:

Bo Zhao, Ping Yan Bian, Yu Li

Keywords:

Composite Nano Ceramics, Elastic Kernel Function, Grinding Force, Nonlocal Theory, Ultrasonic Vibration

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